To get the most value from high-value assets such as ships, power-plants and oil-rigs, you need to find the right balance between maintenance, modernisation and operational activity so as to extend service life, enhance performance and minimise ‘down-time’ over the asset lifecycle.
In many organisations, however, undue pressure to maximise immediate return from high-value assets by pushing their performance to the limit frequently creates a stove-pipe mentality that does not factor in the other activities and only focuses on profit. Such a mentality misses the long-term implications of neglecting asset maintenance, for example, or it focuses activity too much on one area. As a result, lifecycle performance is compromised – as are long-term financial returns.
By measuring the trade-off between performance, down-time and risk through a ‘dynamic simulation’ model, you can balance maintenance activity, operational policy and performance constraints to get the most out of your asset, across its entire lifecycle.
A dynamic simulation analyses operations and maintenance activity and performance constraints to provide a clear view of an asset’s backlog. The critical backlog is the difference between a level of maintenance that would extend an asset forever, and the level of maintenance that is actually practical. It shows the asset’s condition, its risk of failure and the maintenance required for optimum performance. Over time, the backlog grows through ‘insidious decline,’ the increase in the wear of a system as components wear out, which affects the rate of wear of other components. Ordinarily, without a dynamic simulation, it is difficult to manage because system failures only become apparent after a time lag and its long-term effects on performance are not linear.
Dynamic simulation shows you the impact of different options across organisational boundaries, such as operations and maintenance, which can otherwise be constrained by isolated and stove-pipe thinking. It allows you to focus on current revenue in the light of the asset’s lifecycle and targeted total returns. You can thereby make trade-offs between cost and risk to performance, which is necessary to meet objectives across the asset lifecycle. Achieving options across organisational boundaries results in higher returns by helping people understand the impacts that jeopardise future returns from the asset.
A strong example of dynamic simulation in action is the US Navy. They are in a position where they don’t have enough submarines to support their stated fleet requirements. As defence budgets are under extreme pressure, and submarines cost billions of dollars, buying more is not an option. Using dynamic simulation to coordinate policy, design and maintenance changes, we identified how submarines can add an additional two-year deployment cycle (6% increase in operational time) within their fixed 33-year lifetime. The additional deployment time provides the capability of an additional submarine - an asset worth at least $2 billion – at negligible cost.
To discuss how we can help you get the most value from your high-value assets, please contact us now.